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pH and Temperature-Dependent Dissolution Kinetics of Commercial Lightly-Burned Magnesia: Bridging Methodological Gaps for Cement Applications
Xiaowen Zhang
,Juan Pablo Gevaudan
Posted: 02 March 2026
Three-Channel Rayleigh Lidar System Signal Retrievals
Satyaki Das
,Richard Collins
,Jintai Li
Posted: 02 March 2026
Observation of Tax Transparency Reporting by Top 40 JSE-Listed Firms
Nontuthuko Khanyile
,Masibulele Phesa
Posted: 02 March 2026
The Metacognitive Paradox of AI-Assisted Creativity: A Theoretical Extension
The Metacognitive Paradox of AI-Assisted Creativity: A Theoretical Extension
Jonathan H. Westover
The rapid integration of large language models (LLMs) into organizational workflows raises fundamental questions about the long-term effects of AI assistance on human creative capabilities. This article provides a comprehensive theoretical extension of Sun et al.'s (2025) field experiment, which demonstrated that LLM assistance enhances creative output during use but diminishes subsequent independent creativity—particularly for individuals with lower metacognitive ability. We develop the metacognitive paradox framework to explain this phenomenon: AI tools designed to augment human creativity may inadvertently suppress the very cognitive processes that sustain independent creative capacity. Drawing on metacognition theory, cognitive offloading research, automation and human factors literatures, and the componential model of creativity, we articulate the mechanisms through which LLM assistance affects creative cognition, specify temporal dynamics and boundary conditions, and generate testable propositions for future research. We explicitly compare our framework against alternative theoretical explanations—including cognitive load theory, motivational accounts, and expertise development perspectives—and provide methodological guidance for testing our propositions. Our analysis reveals that the relationship between AI assistance and human creativity is neither uniformly beneficial nor detrimental but contingent upon individual metacognitive capabilities, patterns of tool use, task characteristics, and organizational context. We conclude with implications for theory, research methodology, organizational practice, and the ethical dimensions of AI-augmented work.
The rapid integration of large language models (LLMs) into organizational workflows raises fundamental questions about the long-term effects of AI assistance on human creative capabilities. This article provides a comprehensive theoretical extension of Sun et al.'s (2025) field experiment, which demonstrated that LLM assistance enhances creative output during use but diminishes subsequent independent creativity—particularly for individuals with lower metacognitive ability. We develop the metacognitive paradox framework to explain this phenomenon: AI tools designed to augment human creativity may inadvertently suppress the very cognitive processes that sustain independent creative capacity. Drawing on metacognition theory, cognitive offloading research, automation and human factors literatures, and the componential model of creativity, we articulate the mechanisms through which LLM assistance affects creative cognition, specify temporal dynamics and boundary conditions, and generate testable propositions for future research. We explicitly compare our framework against alternative theoretical explanations—including cognitive load theory, motivational accounts, and expertise development perspectives—and provide methodological guidance for testing our propositions. Our analysis reveals that the relationship between AI assistance and human creativity is neither uniformly beneficial nor detrimental but contingent upon individual metacognitive capabilities, patterns of tool use, task characteristics, and organizational context. We conclude with implications for theory, research methodology, organizational practice, and the ethical dimensions of AI-augmented work.
Posted: 02 March 2026
In Vitro Evaluation of the Antimicrobial Activity of Origanum vulgare Essential Oil Against Esbl-Producing Strains of Escherichia coli and Klebsiella pneumoniae
Andrea González
,Mónica Espadero
,Inés Malo
,Ricardo Alejandro
Posted: 02 March 2026
Functionalization of 3D Printed Polylactic Acid by Supercritical CO2 Impregnation with Mango Leaf Extract and Evaluation with Endothelial Colony Forming Cells and Mesenchymal Stromal Cells
Functionalization of 3D Printed Polylactic Acid by Supercritical CO2 Impregnation with Mango Leaf Extract and Evaluation with Endothelial Colony Forming Cells and Mesenchymal Stromal Cells
Ismael Sánchez-Gomar
,Mercedes Cáceres Medina
,Cristina Cejudo-Bastante
,Casimiro Mantell-Serrano
,Lourdes Casas-Cardoso
,Mª Carmen Durán-Ruíz
Poly(lactic acid) (PLA) devices can be functionalized with plant derived bioactives to introduce antioxidant activity while maintaining manufacturability and cytocompatibility. Here, a polyphenol rich mango leaf extract (MLE) was obtained by enhanced solvent extraction and incorporated into PLA using supercritical carbon dioxide assisted impregnation. Two manufacturing sequences were compared: impregnation after three dimensional (3D) printing of discs and impregnation of filaments prior to printing. Extract yield and radical scavenging capacity were quantified, and impregnation efficiency was assessed as a function of pressure and temperature. Biological performance was evaluated using adipose tissue derived endothelial colony forming cells (ECFCs) and adipose tissue derived mesenchymal stromal cells (MSCs), cultured separately and in co culture on functionalized substrates. Impregnation after printing provided higher and more reproducible loading while preserving disc geometry, whereas impregnation before printing promoted swelling and printing associated deformation that compromised structural fidelity. Cell based analyses supported improved adhesion, spatial distribution and proliferative status on discs produced by impregnation after printing under low temperature and high pressure conditions, without evidence of selective loss of either population in co culture by flow cytometry. These results support post print supercritical impregnation as a robust route to generate antioxidant, cell supportive PLA scaffolds from agricultural by products with potential relevance for vascular oriented biomedical applications.
Poly(lactic acid) (PLA) devices can be functionalized with plant derived bioactives to introduce antioxidant activity while maintaining manufacturability and cytocompatibility. Here, a polyphenol rich mango leaf extract (MLE) was obtained by enhanced solvent extraction and incorporated into PLA using supercritical carbon dioxide assisted impregnation. Two manufacturing sequences were compared: impregnation after three dimensional (3D) printing of discs and impregnation of filaments prior to printing. Extract yield and radical scavenging capacity were quantified, and impregnation efficiency was assessed as a function of pressure and temperature. Biological performance was evaluated using adipose tissue derived endothelial colony forming cells (ECFCs) and adipose tissue derived mesenchymal stromal cells (MSCs), cultured separately and in co culture on functionalized substrates. Impregnation after printing provided higher and more reproducible loading while preserving disc geometry, whereas impregnation before printing promoted swelling and printing associated deformation that compromised structural fidelity. Cell based analyses supported improved adhesion, spatial distribution and proliferative status on discs produced by impregnation after printing under low temperature and high pressure conditions, without evidence of selective loss of either population in co culture by flow cytometry. These results support post print supercritical impregnation as a robust route to generate antioxidant, cell supportive PLA scaffolds from agricultural by products with potential relevance for vascular oriented biomedical applications.
Posted: 02 March 2026
Circular Supply Chain Design for Sustainable Localization of High-Technology UAV Systems in Emerging Economies
Eva Selene Hernández-Gress
,David Conchouso González
,Edgar Cerón-Rodríguez
Posted: 02 March 2026
Artificial Intelligence Adoption and Governance in New Jersey: A Comprehensive Framework for Public Sector Innovation, Ethical Implementation, and Economic Development
Satyadhar Joshi
Posted: 02 March 2026
Ancient Pathogen Genomics in Africa – Current Evidence and Future Directions
Maja Vukovikj
,Carla Mavian
,Helen Wang
,Robert J. Gifford
,Tulio de Oliveira
,Carina Schlebusch
Posted: 02 March 2026
Modulation of Endoplasmic Reticulum Stress via CEBPB: a Novel Therapeutic Target in Opioid Use Disorder
Cheng Zhang
,Hu Li
,Ming-Fen Ho
Posted: 02 March 2026
Precision Oncology at a Crossroads: How Organoid Platforms Are Reshaping the Field
SeulBee Lee
,Alyssa Kim
,Rachel Hyunkyung Kim
,Seo-Hee You
,Hyun Soo Kim
,Seok Chung
,SangHaak Lee
,In Kyoung Kim
,Seung-Ah Yahng
,Hye Joung Kim
Posted: 02 March 2026
Aligning Gifted Education with Sustainable Development Goals: A Cross-Cultural Analysis from a Türkiye Perspective
Gulce Coskun Senturk
,Sibel Ertem
Posted: 02 March 2026
Bouzidi Lamdjad
,Adam Chaiter
This study presents an AI-powered framework for predictive maintenance and prognostic health management (PHM) based on edge-enabled predictive algorithms to support intelligent fault diagnosis in industrial operations. The proposed framework is designed to monitor system conditions, detect early fault signatures, and anticipate degradation patterns using high-frequency operational data collected from two large industrial plants between 2024 and 2025. By leveraging edge computing, the approach enables localized anomaly detection with low latency, allowing deviations in system behavior to be identified close to the data source. The methodology integrates edge-based anomaly detection with predictive modeling techniques to estimate future system health states and fault-related risk dynamics. Anomalies identified at the edge level are aggregated and processed through forecasting models to infer degradation trends and support prognostic assessment. A health-oriented evaluation layer translates predictive outputs into actionable indicators that support maintenance planning and system recovery decisions. The framework is evaluated using standard predictive performance metrics, including MAPE, RMSE, and R², together with a health-related improvement measure reflecting system stability and recovery capability. The results demonstrate high predictive reliability, with the models explaining approximately 98.9% of the observed variability in system risk indicators and achieving measurable improvements in operational stability through early fault mitigation. This research contributes a scalable algorithmic framework that links data-driven condition monitoring, intelligent fault diagnosis, and PHM within an edge computing environment, strengthening maintenance decision accuracy in dynamic industrial settings.
This study presents an AI-powered framework for predictive maintenance and prognostic health management (PHM) based on edge-enabled predictive algorithms to support intelligent fault diagnosis in industrial operations. The proposed framework is designed to monitor system conditions, detect early fault signatures, and anticipate degradation patterns using high-frequency operational data collected from two large industrial plants between 2024 and 2025. By leveraging edge computing, the approach enables localized anomaly detection with low latency, allowing deviations in system behavior to be identified close to the data source. The methodology integrates edge-based anomaly detection with predictive modeling techniques to estimate future system health states and fault-related risk dynamics. Anomalies identified at the edge level are aggregated and processed through forecasting models to infer degradation trends and support prognostic assessment. A health-oriented evaluation layer translates predictive outputs into actionable indicators that support maintenance planning and system recovery decisions. The framework is evaluated using standard predictive performance metrics, including MAPE, RMSE, and R², together with a health-related improvement measure reflecting system stability and recovery capability. The results demonstrate high predictive reliability, with the models explaining approximately 98.9% of the observed variability in system risk indicators and achieving measurable improvements in operational stability through early fault mitigation. This research contributes a scalable algorithmic framework that links data-driven condition monitoring, intelligent fault diagnosis, and PHM within an edge computing environment, strengthening maintenance decision accuracy in dynamic industrial settings.
Posted: 02 March 2026
Advances in Research on the Interactions Between Sweet Taste and Other Sensory Systems
Cunli Dou
,Ying Wang
,Minghui Zou
,Bo Liu
Posted: 02 March 2026
Economic Freedom and Sustainable Socio‑Economic Development in the EU: An Assessment Based on the Index of Economic Freedom in 2015–2025
Aneta Ejsmont
,Alina Walenia
,Elżbieta Noworol-Luft
,Stanisław Ejdys
,Karol Solek
,Adam Kolinski
,Agnieszka Barczak
,Małgorzata Wilczyńska
Posted: 02 March 2026
Longitudinal and Model-Based Analysis of Meat Condemnation in Sokoto Main Abattoir, Nigeria
Abdurrahman Hassan Jibril
,Isma'il Ibrahim
,Aminu Shittu
,Abdulbariu Ogirima Uhuami
,Rukaiya Bala Suraj
,Bello Magaji Arkilla
,Abdurrasheed Bello
,Bashiru Garba
,Mohammed Sani Gaddafi
,Abdullahi Alhaji Magaji
Posted: 02 March 2026
Composing the Nation: Music Education as an Instrument of Identity Construction and Its Consequences for Regional Integration in Central Asia
Cheng Junru
,Zhou Yandi
,Yuan Wenpin
,Yao Mengqi
Posted: 02 March 2026
Influence of the Final Annealing Temperature on Al-Fe-Si Alloy Foil Microstructure and Properties
Xiuda Zhu
,Changle Xiao
,Xiubin Wang
,Xiaohu Chen
,Hongyan Wu
,Wei Chen
This study systematically investigates the effects of the final annealing temperature on the microstructural evolution and mechanical properties of an Al-Fe-Si alloy aluminum foil. Scanning electron microscopy (SEM) characterization and tensile tests are employed for analysis. As the annealing temperature is elevated from 240°C to 360°C, the average grain size increases monotonically from 5.2 μm to 9.6 μm. Continuous recrystallization is identified as the predominant grain growth mechanism.Tensile deformation exhibits the homogeneous-plastic behavior without localized necking. The tensile strength decreases significantly in the range of 240–300°C and subsequently undergoes a recovery stage at 300–360°C. The Pronounced elongation anisotropy is observed. The maximum elongation reaches 30–34% along the 45° direction relative to the rolling direction (RD), which is approximately 1.5 times that along the RD (0°).Comparative analysis of the anisotropy indices demonstrates that the aluminum foil annealed at 240°C achieves the minimal tensile strength anisotropy (13.0 MPa) and elongation anisotropy (−4.2%). This indicates optimal comprehensive mechanical performance.These findings provide a theoretical rationale for the industrial optimization of the annealing processes for Al-Fe-Si alloy foils. They are particularly valuable for balancing microstructural regulation and mechanical property enhancement in lithium-ion battery soft-packaging applications.
This study systematically investigates the effects of the final annealing temperature on the microstructural evolution and mechanical properties of an Al-Fe-Si alloy aluminum foil. Scanning electron microscopy (SEM) characterization and tensile tests are employed for analysis. As the annealing temperature is elevated from 240°C to 360°C, the average grain size increases monotonically from 5.2 μm to 9.6 μm. Continuous recrystallization is identified as the predominant grain growth mechanism.Tensile deformation exhibits the homogeneous-plastic behavior without localized necking. The tensile strength decreases significantly in the range of 240–300°C and subsequently undergoes a recovery stage at 300–360°C. The Pronounced elongation anisotropy is observed. The maximum elongation reaches 30–34% along the 45° direction relative to the rolling direction (RD), which is approximately 1.5 times that along the RD (0°).Comparative analysis of the anisotropy indices demonstrates that the aluminum foil annealed at 240°C achieves the minimal tensile strength anisotropy (13.0 MPa) and elongation anisotropy (−4.2%). This indicates optimal comprehensive mechanical performance.These findings provide a theoretical rationale for the industrial optimization of the annealing processes for Al-Fe-Si alloy foils. They are particularly valuable for balancing microstructural regulation and mechanical property enhancement in lithium-ion battery soft-packaging applications.
Posted: 02 March 2026
Cultural Knowledge Presentation of Salah Lanna within the Context of Buddhist Art: Expressed through Stone Buddha Statues via Virtual Reality
Phichete Julrode
,Piyapat Jarusawat
Posted: 02 March 2026
Raw milk Cheeses as Reservoirs of Antimicrobial-Resistant Bacteria: A Comparative Study of Goat and Sheep Milk Products
Kimia Dalvand
,Ratajczak Katarzyna
,Paweł Cyplik
,Jakub Czarny
,Agnieszka Piotrowska-Cyplik
Raw milk cheeses represent complex microbial ecosystems that may act as reservoirs of antimicrobial-resistant bacteria. This study investigated the microbiological characteristics, bacterial community structure, and antimicrobial resistance (AMR) profiles of artisanal goat and sheep cheeses produced by regional manufacturers in Poland. A total of ten cheeses, including five goat cheeses and five sheep oscypek-type cheeses, were analysed. Culture-dependent enumeration and isolation were combined with molecular identification via 16S rRNA gene sequencing and antimicrobial susceptibility testing by disk diffusion. Total viable bacterial counts ranged from 105 to 108 CFU/mL, revealing considerable variability among individual samples. Microbiological profiling indicated the predominance of lactic acid bacteria, with Lactococcus, Lactobacillus, and Streptococcus representing the dominant genera. Multivariate analysis (PCoA) demonstrated substantial intra-group dispersion and overlapping clustering patterns between goat and sheep cheeses, suggesting that sample-specific ecological factors exerted a stronger influence on microbial composition than milk origin. Among 150 bacterial isolates, multidrug resistance (MDR) was detected in 28.7% of strains. MDR prevalence varied markedly between bacterial groups, reaching 100.0% in Enterobacterales, 73.3% in Enterococcus spp., and 16.2% in lactic acid bacteria. Resistance was most frequently observed for aminoglycosides and β-lactam antibiotics, particularly streptomycin and gentamicin. The results indicate that artisanal cheeses constitute heterogeneous microbial niches and may serve as potential reservoirs of antimicrobial-resistant bacteria. Integrating microbiological and AMR analyses provides valuable insight into the ecological determinants of resistance in traditional dairy products. These findings indicate that artisanal cheeses may represent heterogeneous microbial niches and potential reservoirs of AMR bacteria. The integration of microbiome profiling and phenotypic AMR assessment provides valuable insight into the ecological drivers of resistance in traditional dairy products.
Raw milk cheeses represent complex microbial ecosystems that may act as reservoirs of antimicrobial-resistant bacteria. This study investigated the microbiological characteristics, bacterial community structure, and antimicrobial resistance (AMR) profiles of artisanal goat and sheep cheeses produced by regional manufacturers in Poland. A total of ten cheeses, including five goat cheeses and five sheep oscypek-type cheeses, were analysed. Culture-dependent enumeration and isolation were combined with molecular identification via 16S rRNA gene sequencing and antimicrobial susceptibility testing by disk diffusion. Total viable bacterial counts ranged from 105 to 108 CFU/mL, revealing considerable variability among individual samples. Microbiological profiling indicated the predominance of lactic acid bacteria, with Lactococcus, Lactobacillus, and Streptococcus representing the dominant genera. Multivariate analysis (PCoA) demonstrated substantial intra-group dispersion and overlapping clustering patterns between goat and sheep cheeses, suggesting that sample-specific ecological factors exerted a stronger influence on microbial composition than milk origin. Among 150 bacterial isolates, multidrug resistance (MDR) was detected in 28.7% of strains. MDR prevalence varied markedly between bacterial groups, reaching 100.0% in Enterobacterales, 73.3% in Enterococcus spp., and 16.2% in lactic acid bacteria. Resistance was most frequently observed for aminoglycosides and β-lactam antibiotics, particularly streptomycin and gentamicin. The results indicate that artisanal cheeses constitute heterogeneous microbial niches and may serve as potential reservoirs of antimicrobial-resistant bacteria. Integrating microbiological and AMR analyses provides valuable insight into the ecological determinants of resistance in traditional dairy products. These findings indicate that artisanal cheeses may represent heterogeneous microbial niches and potential reservoirs of AMR bacteria. The integration of microbiome profiling and phenotypic AMR assessment provides valuable insight into the ecological drivers of resistance in traditional dairy products.
Posted: 02 March 2026
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